Microwave RF Repeater Overview and Applications Frank Martens President - CEO Ed Johnson Vice President – Chief Engineer Peninsula Engineering Solutions, Inc. Peninsula Engineering Solutions Who is PESi? Who are we? What do we do? Peninsula Engineering Solutions Corporate History Peninsula Engineering Group, Inc. Peninsula Wireless Communications, Inc. RTI 1995 – 2002 Peninsula Engineering Solutions, inc. 3 PWC 1992 – 1995 Repeater Technologies, Inc. PEGI 1983 – 1992 PESi, Separate independent company 2001 – Current Confidential and Proprietary We Love… Remote, Hostile Environments No Electric Power Lines Low power consumption optimized microwave and cellular repeaters SmartPower™ developed for alternate power sources No Shelters 4 Avoid the high construction costs, air conditioning and heating expenses No Roads Solar and Wind renewable power sources Avoid the construction costs of access and maintenance roads Mountains, Deserts, Jungles… remote, hostile locations – we love them ! Confidential and Proprietary Services Offered MW Repeater Path Calculations We can prepare path calculations. or supply you with a path calculation tool. Configure the RF Repeater System and Site Recommend antenna size and type. Recommendations are integrated with terminal radios. Supply the RF Repeater Equipment Supply the MW Terminal Radio Equipment Remote Site Power Systems Configure solar or wind sizing based on your goals. Supply designed systems. Remote Telecom Site Power Specialists 5 Microwave, Cellular, Wireless Confidential and Proprietary Services Offered Installation Services Install and test Training 6 Repeaters Alarm system Solar and wind power system Antennas and cabling. Systems and Applications Products Installation and Maintenance Trouble shooting Confidential and Proprietary Microwave RF Repeaters Overview Ed Johnson Vice President – Chief Engineer Microwave RF Repeaters RF repeaters relay microwave signals over obstructions like 8 Mountains Or buildings Or use high point to reach distant towns Suited for fixed, point-to-point telephone, video, circuit switched data and IP packet data networks Confidential and Proprietary Microwave RF Repeaters 9 Designed for limited access, remote locations and harsh weather conditions. Economical solar electric battery power is ideal for operating repeaters Confidential and Proprietary RF-6000E MW RF Repeater 5925 ~ 7125 MHz 30 MHz Ch BW max EW: 40 MHz BW 2 PA Levels Low DC Power < 30 W < 40 W 10 PA L1 DX Protected Confidential and Proprietary PA L2 DX Protected Why are RF Repeaters Needed? 11 Microwave path can not directly reach the distant end. Path is too long, earth curvature blocks path. Terrain between radio ends is too high and blocks path. New building blocks the path. Confidential and Proprietary Why are RF Repeaters Needed? Tall antenna towers make project cost too much. Long distance path clearance requires tall towers. Mid-path RF repeater station costs less than tall towers. Upgraded from 2 GHz to 6 GHz, Repeater and Feed Horn change 12 Earth bulge, K factor High terrain obstruction Confidential and Proprietary Why are RF Repeaters needed? Multipath fading makes long path unreliable. Outage time is proportional to (path length, D)3, two shorter segments are up to 4 times more reliable. Direct = D3 Mid Path Repeater = (D/2)3 + (D/2)3 = 2D3/8 = D3/4 13 Confidential and Proprietary Assumes equal fade margins Benefits of RF Repeaters Simplify radio relay route planning. Improved system reliability. Simple equipment is field proven, extremely reliable. Radio paths using RF repeaters are very reliable. Improve multi-hop packet data networks. 14 Easy to engineer. Site selection is easier than for back-to-back radios. Site engineering and installation requires less work than for back-to-back radios. Very low latency per RF repeater. Very low jitter per RF repeater. Confidential and Proprietary Benefits of RF Repeaters Reduced site costs. Inexpensive to operate. 15 Outdoor mounted equipment eliminates shelter requirements in most areas. Low maintenance eliminates need for frequent road access. Low power operation reduces mains power equipment needed. Solar and wind power use “free energy”. Few components, simple. Easy to maintain. Confidential and Proprietary When should RF Repeaters be used? When the Microwave Path is obstructed or too long. When the Radio Relay Station does not require circuit drops. When the Radio Relay Station requires simple and reliable construction. 16 RF Repeaters are “Through Repeaters”. Difficult mountain terrain No roads No electric power lines Rapid installation, quick in-service time When a remote, unattended station requires highly reliable equipment and low maintenance. Confidential and Proprietary Relocation and Migration from 2 GHz, Considerations for RF Repeaters Existing path may use an RF repeater. Higher frequency band models may be used. Higher frequency bands may have worse propagation. Narrower beamwidths are more prone to decoupling, beam wander. Shorter hops work better. 17 30 ~ 50 km, 20 ~ 30 mi in 4 to 8 GHz. Longer hops can become two shorter hops through an RF repeater. Confidential and Proprietary Relocation and Migration from 2 GHz, Considerations for RF Repeaters Higher frequency bands require solid reflector antennas rather than grids. Narrower Beamwidths require stiffer towers. RF repeater site may use larger antennas for isolation requirements and also reduce the need for larger antennas at the radio terminal sites. 18 Reduce radio terminal site tower upgrade or replacement costs. RF repeater high sites typically use shorter towers. Confidential and Proprietary Compatibility with radios MW RF Repeaters are generally compatible with most available microwave radios. Few limitations. Primary variables Frequency Band Occupied bandwidth Point-to-point communications bands, USA, Int’l Normal channel plans supported Modulation FM/FSK to 512QAM and COFDM Easily adapts to new modulations 19 Channel Bandwidth and Linear Power Setting Confidential and Proprietary Compatibility with radios, Modes and Functions supported 20 Linear RF Repeaters are able to support a wide range of modes and functions found in modern radio equipment. Automatic Transmit Power Control, ATPC Adaptive Coding and Modulation, ACM Dual Polarization, Co-Frequency, XPIC Traffic modes: TDM, ATM, SONET, SDH, PDH, IP-Packet, Mixed TDM & IP-Packet/Ethernet Video modes: Digital, Standard Definition, High Definition Confidential and Proprietary Packet Data, Ethernet and IP Applications Linear RF Repeaters are compatible with advanced microwave radio equipment supporting packet data traffic. RF Repeater’s “transparency” continues to maintain compatibility as technology advances. Packet data is sensitive to network latency or propagation delay. RF Repeaters offer very low latency. 21 100 ~ 150 nanoseconds typical per repeater Equivalent to 0.150 microseconds or 0.00015 ms Confidential and Proprietary Microwave RF Repeater Applications How to best use MW RF Repeaters Microwave RF Repeater Applications Mountain Top Radio Relay Station Microwave RF Repeater East Terminal West Terminal 23 Mountain Confidential and Proprietary Microwave RF Repeater Applications Tandem Microwave RF Repeater Stations East Terminal West Terminal 24 Confidential and Proprietary Microwave RF Repeater Applications “Y”-Junction RF Repeater Station East Terminal West Terminal 25 Central Terminal Through Traffic is Looped Confidential and Proprietary Microwave RF Repeater Applications “H”-Junction RF Repeater Station Multi-Line Repeater routes traffic to multiple terminals. North Terminal East Terminal West Terminal South Terminal 26 Confidential and Proprietary Microwave RF Repeater Applications Combination Tandem “Y”-Junction Microwave RF Repeater Stations East Terminal West Terminal 27 West Central Terminal Confidential and Proprietary East Central Terminal Microwave RF Repeater Applications Passive Reflector (short leg) and Tandem Microwave RF Repeater Stations East Terminal Passive Reflector West Terminal 28 Confidential and Proprietary A Repeater Site with a View! Citizens Communications – now Frontier Near Ferndale, CA 29 Overlooking the Pacific Ocean at Cape Mendocino. 6 GHz, migrated from 2 GHz in 2001 Solar Powered Alcatel MDR-8706-16 terminal radios Confidential and Proprietary Military Repeater 30 RF-2000 Repeater at Nellis AFB near Las Vegas Solar Powered Tower Mounted 4-DS1 Capacity Migration candidate Confidential and Proprietary Dam Link 31 RF-2000 Repeater at Kortes Dam serving the power plant below USBR operated Solar Powered Mounted on HV Transmission tower Upgrade planned to 8 GHz, 1-DS3 Confidential and Proprietary Compact Repeater Passive Upgrade MWD of SoCal RF-6000E 135 Mb/s TDM, IP Upgrade passive repeater 2005 32 Fade Margin 37dB from ~3dB Low visibility Solar Powered Alcatel MDR-8606 terminal radios Confidential and Proprietary Y-Junction Repeater Verizon California 11 GHz, NB Chan Migrated from 2 GHz CC in 2003~04 2x RF-11000-51 Solar and Wind Powered 16-DS1 per route 33 2 Carrier x 16-DS1 on common leg to CO Confidential and Proprietary Verizon California CRYSTAL LAKE, CA W HS996 L a t: 3 4 -1 8 -4 1 .0 L o n : 1 1 7 -5 0 -1 0 .2 G n d E le v: 5 0 3 9 .9 4 '/1 5 3 6 .1 9 m Y-Junction Repeater and 11 GHz Microwave System 1 1 1 9 2 .5 0 0 V A n te n n a : P A R 8 -1 0 7 C /L : 1 8 ft/5 .4 m A Z : 2 1 1 .7 1 1 1 9 2 .5 0 0 H 1 1 1 5 2 .5 0 0 V A n te n n a : H P X 8 -1 0 7 C /L : 1 4 ft/4 .2 m A Z : 1 7 5 .4 1 1 6 9 2 .5 0 0 H 1 1 6 4 2 .5 0 0 V A n te n n a : H P X 8 -1 0 7 C /L : 5 2 ft/1 5 .8 m A Z : 3 5 5 .4 9 .5 m ile s / 1 5 .2 km 1 1 6 9 2 .5 0 0 V 7 .1 m ile s / 1 1 .4 km A n te n n a : P A R 6 -1 0 7 C /L : 1 4 ft/4 .2 m A Z : 3 1 .7 A lc a te l M D R 8 7 1 1 -1 6 R a d io A n te n n a : P A R 6 -1 0 7 C /L : 1 4 ft/4 .2 m A Z : 7 7 .8 4 .8 m ile s / 7 .7 km 1 1 6 4 2 .5 0 0 H P IN E M T N , C A W HS994 L a t: 3 4 -1 3 -2 4 .0 L o n : 1 1 7 -5 4 -0 6 .2 G n d E le v: 4 5 3 9 .9 4 '/1 3 8 3 .7 9 m C O V IN A , C A W HS993 L a t: 3 4 -0 5 -0 9 .0 L o n : 1 1 7 -5 3 -1 9 .2 G n d E le v: 5 7 0 .9 9 '/1 7 4 .0 4 m P e n in s u la E n g in e e rin g S o lu tio n s R F -1 1 0 0 0 -5 1 R F R e p e a te rs , 2 e a A lc a te l M D R 8 7 1 1 -1 6 R a d io 2 TR A n te n n a : P A R 6 -1 0 7 C /L : 1 8 ft/5 .4 m A Z : 2 5 7 .8 1 1 1 5 2 .5 0 0 H EAST FORK, CA W HS995 L a t: 3 4 -1 4 -1 7 .0 L o n : 1 1 7 -4 9 -1 0 .2 G n d E le v: 1 5 3 0 .9 8 '/4 6 6 .6 5 m A lc a te l M D R 8 7 1 1 -1 6 R a d io 34 Confidential and Proprietary ENTEL Chile 35 2 – RF2000 Repeaters in tandem. 34 Mb/s Capacity. Alcatel 4PSK radios. Terminal Penon 30 km to Repeater Mingre 37.5 km to Repeater Loma del Rio 2.8 km to Terminal Constitucion. Confidential and Proprietary Arizona Telephone Co 36 RF-11000, 11GHz 45 Mb/s Upgrade from passive – 2008 Solar powered Aviat TRuepoint 5200 radios Grand Canyon NP Confidential and Proprietary Repeater Selection Product Summary Repeater Selection Considerations 38 Microwave Frequency Band Products currently available 1.5 - 11 GHz. Nine major repeaters in family operating in worldwide, point-to-point microwave bands. Products serve US Telephone Operations US Operations Fixed US Federal Agencies International Operations Confidential and Proprietary Repeater Selection Considerations 39 Repeaters for US Telco and Ops Fixed Frequency Band RF Repeater Model 1.7 ~ 2.3 GHz RF-2000E 2.4500 ~ 2.4835 GHz RF-2500E 2.4 GHz ISM DSSS Unlicensed RF-2500E-01-SS 5.9 ~ 7.1 GHz RF-6000E 10.7 ~ 11.7 GHz RF-11000 Confidential and Proprietary Repeater Selection Considerations 40 Repeaters for US Federal Agencies Frequency Band RF Repeater Model 2.200 ~ 2.290 GHz RF-2000E 2.4 GHz ISM DSSS Unlicensed RF-2500E-01-SS 4.4 ~ 5.0 GHz RF-4500 5.7 ~ 5.8 GHz U-NII Unlicensed RF-6000E 7.1 ~ 7.9 GHz RF-7000E 7.7 ~ 8.5 GHz RF-8000E Confidential and Proprietary Repeater Selection Considerations 41 Repeaters for International Applications Frequency Band RF Repeater Model 1.39 ~ 1.54 GHz RF-1500E 1.7 ~ 2.3 GHz RF-2000E 2.3 ~ 2.7 GHz RF-2500E 4.4 ~ 5.0 GHz RF-4500 5.9 ~ 7.1 GHz RF-6000E 6.4 ~ 7.1 GHz, 40 MHz BW RF-6000EW 7.1 ~ 7.9 GHz RF-7000E 7.7 ~ 8.5 GHz RF-8000E 10.7 ~ 11.7 GHz RF-11000 Confidential and Proprietary Repeater Selection Considerations 42 Route of Network at Radio Relay Station Through, Y-Junction, H-Junction or Custom Station. Hundreds of configurations available. Single or Tandem Repeaters Tandem practical limit is 3 to 4 repeaters. Depends on traffic, modulation and hop distance. Delay equalization is available and recommended. Low Latency advantage over radio repeaters. Confidential and Proprietary Repeater Selection Considerations Working Channels and Protection Configuration Frequency Plan T/R Spacing T-T Spacing Channel Bandwidth Go V H 1 Return 3 2 5 4 1' 6 3' 2' 5' 4' Typical Microwave Frequency Plan Traffic Loading 43 1+0, 1+1, 2+1, 3+1,...7+1. 1.5 Mb/s ~ 2 Mb/s to 155 ~ 200 Mb/s Typically. Dependant on terminal radio capacity. Confidential and Proprietary 6' Repeater Selection Considerations Modulation of Terminal Radios 10 44 FM, QPSK, QAM, TCM are typical modulations. Typical RF Power operating levels, dBm. 12 14 16 18 20 22 24 26 Confidential and Proprietary 28 FM, FSK, MSK QPSK 16QAM 32QAM 64QAM 128QAM 512QAM 32TCM 64TCM 128TCM Repeater Selection Guide Peninsula Engineering Solutions has prepared a Microwave RF Repeater Selection Guide “Guidelines for Selection and Link Design” to assist in making choices. Please consult the guide book when you are choosing Microwave RF Repeaters. Available on the PES web site. 45 www.peninsulaengineering.com and on CD Confidential and Proprietary Characteristics, Considerations and Configurations Primary Characteristics of Microwave RF Repeaters On-Frequency Repeater No Frequency Change, F1 in, F1 out! F3 F3 F3 Rx R-R F1 Rx F3 Tx F1 F1 T-R T-R T-T F2 Tx F4 Tx F2 F2 F4 F4 1+1 Duplex Configuration 47 T-T F1 Tx Confidential and Proprietary F2 Rx F4 Rx R-R Configurations Available 1+0, 1+1 Hot Standby Equivalent Duplex 1+0, 1+1 HSBE Space Diversity Duplex 1+1 Frequency Diversity Duplex 1+1 Hybrid Space and Frequency Diversity Duplex 1+0, 1+1 Y-Junction Duplex 1+0, 1+1 One-Way, Simplex 2+1, 3+0 Duplex 3+1, 4+0 Duplex 48 2-working channels and 1-protection channel 3-working channels and 1-protection channel 4+1 ~ 7+1 are combinations of these Confidential and Proprietary Space Diversity Configurations 2-Frequency, 1+0/1+1 Hot Standby Long Path – Short Path 4-Frequency, 1+1 Frequency Diversity Any path length or radio type Hybrid or Quad Diversity 49 Hybrid Space + Frequency Diversity Product of individual improvements Confidential and Proprietary Configurations Available 1+0/1+1 Hot Standby Duplex Space Diversity. 50 Space diversity receive antennas on the long path. V-H Polarization separated co-channel short path. Diversity combining at the far terminal receiver. Recommended for 34, 45 Mb/s or lower and 32 TCM, 16 QAM or simpler modulation with standard 30 dB XPD. Higher XPD is required for 155 Mb/s, 64 QAM and above. XPD > Receiver T/I 1+ 0, S p ace D iversity Long P ath F1 F1 M ain (V ) D iv . (V ) Confidential and Proprietary S hort P ath (H ) F2 F2 F3 = F1 F3 = F1 (V ) Configurations Available 1+1 Duplex, Hybrid Space and Frequency Diversity. 51 Space diversity receive antennas on the long path. Single antennas, frequency diversity on the short path. Diversity combining at the far terminal. Recommended for all capacities and modulations. 1+ 1, S p ace/F req u en cy D iversity Long P ath F1 F1 M ain (V ) (H ) F2 F2 F3 F3 F4 F4 D iv (V ) Confidential and Proprietary S hort P ath Space Diversity MW RF Repeater Link “Long Path” Space Diversity RF-6000E-78 MW RF Repeater “Short Path” MW Radio HS Tx SD Rx 6345.49V V V 6093.45V F1 = 6345.49 MHz 6345.49H T/R Rx H H 6093.45H T/R F2 = 6093.45 MHz 6093.45V V SD Rx V 8 FT HP Dual Pol High XPD >35dB XPD 8 FT F4 = 6093.45 MHz HP Dual Pol V V High XPD >35dB XPD 10 FT HP Single Pol Notes: (1) Short Path has very low probability of fading (2) Short Path antennas can be Gabriel UCC_X, RFS UXA or Equivalent. (3) Short Path XPD >35dB to control co-channel interference to acceptable amount. a) Normally determined by MW Radio Receiver Threshold to Interference, T/I rating. 52 Confidential and Proprietary 10 FT HP Single Pol MW Radio HS Tx SD Rx 2-Repeater Box, Y-Junction F1, F1’ F3, F3’ V-Pol H-Pol Common Dual Polarized 53 Confidential and Proprietary 1-Repeater Box, Y-Junction F1, F1’ 1+ 1, S p ace/F req u en cy D iversity Long P ath F1 F1 M ain (V ) S hort P ath (H ) F2 F2 F3 F3 F4 F4 D iv (V ) F3, F3’ 54 Confidential and Proprietary Common F1, F1’ F3, F3’ Single Pol RMAS Alarm System Ed Johnson Vice President – Chief Engineer Peninsula Engineering Solutions, inc Alarm System for Microwave RF Repeaters Remote Monitor and Alarm System Remote Monitoring or Supervision RMAS-120 Microcontroller based Alarm Transmitter and Receiver. 1+0 to 3+1/4+0 configurations per unit. Low Power consumption. 56 1 ~ 8 amplifier equipped repeaters. 4+1 ~ 7+1 require 2ea RMAS-120 units. Ideal for solar powered installations. Confidential and Proprietary Alarm System for Microwave RF Repeaters 57 Supervisory alarm equipment provides ability to monitor remote RF Repeaters. Alarms are sent to RMAS-120 Receiver Unit installed at nearby terminal microwave radio station. Alarms are extended into the network via contact closures. Confidential and Proprietary RMAS-120 Receiver 58 Confidential and Proprietary Alarm System for Microwave RF Repeaters Local LED indicators for visual alarm checks. Receiver LED indicators show current alarm condition. Transmitter LED indicators may be normally disabled to conserve power. Activated on button push. 59 Sync Loss will flash on loss. Reset to clear. Lamp Test first, then alarm condition Confidential and Proprietary Alarm System for Microwave RF Repeaters Special design adds telemetry to microwave carrier without data stream or baseband access. MW carrier amplitude modulated 1 dB P-P at 32 baud, matching fast fade rates. Detected at terminal AGC voltage. Compatible with most types of continuous carrier terminal radios. 60 AGC eliminates telemetry from the terminal data demodulator. Digital, Analog or Video Confidential and Proprietary Alarm System for Microwave RF Repeaters Not all MW radios are compatible with the RMAS-120 AM Telemetry. UHF Radio link is an alternative transmission from the repeater to the terminal. Parallel to the LOS MW path. Low power continuous operation. 900 MHz Unlicensed Band. 2400 MHz Unlicensed Band. Spread Spectrum, FHSS to manage interference MW AM is eliminated. 61 60 mile, 100 km LOS link distance. Independent from the MW Radio characteristics. Confidential and Proprietary RMAS with UHF Radio 62 RMAS-120 Tx with 900 MHz UHF Tx and data combiner. 900 MHz UHF Rx unit and data output distributor. Confidential and Proprietary Alarm System for Microwave RF Repeaters Uncommitted inputs for monitoring other station equipment. RMAS 120 Transmitter installed inside repeater enclosure 63 Perimeter security. Tower lights. Power system. Weather protection. Security. Confidential and Proprietary Monitored Conditions 64 Amplifiers Current and RF power output. Each amplifier is individually monitored. Power Equipment Battery voltage Battery temperature AC charger AC mains Confidential and Proprietary Monitored Conditions 65 Feedline Pressure Waveguide or Air Coax low pressure sensor Protects against wet feedlines. Security Open door alarm. Inputs for site perimeter alarm. Inputs for solar panel, battery or antenna security wire loop. Confidential and Proprietary RMAS with SNMP Adapter PES SL10 SNMP Link® extends alarm outputs via SNMP over IP networks. Compatible with HP Openview®, Spectrum® and other SNMP-based network management systems. Generate SNMP traps sent to NMS via TCP/IP. Control other equipment with optional relay outputs. Monitor temperature and humidity with optional sensors. 66 Easy MIB integration. Set alarms warning of damaging conditions. Confidential and Proprietary Power Supply Systems Remote Power Remote Site SmartPower™ 68 Confidential and Proprietary SmartPower™ 69 Use as little power as practical Lower power designs Higher efficiencies Incorporate higher gain antennas Manage current as demand varies Careful choice of solar and wind components Long life designs Lower life cycle costs Confidential and Proprietary Power Supply Systems Solar Electric Battery Power Ideal for installations too far from AC mains. Wind Turbine Electric Generators and Battery Site Dependant 70 Need adequate winds Confidential and Proprietary Power Supply Systems Thermal Electric Generators, TEG and Battery Motor Generator (Genset) Suitable for larger site loads. More efficient if combined with battery charging. AC Mains Power, Charger and Battery 71 Ideal for remote installations where solar power alone is insufficient. Lower cost power equipment. Confidential and Proprietary Power Supply Systems Hybrid Power Combinations Improve economics in larger remote installations. Battery Charging Power Systems 72 Solar and Wind Turbine Solar and TEG Solar and Diesel Motor Generator Confidential and Proprietary Solar Electric Battery Power Available almost everywhere in the World. No fuel supplies! 73 10 - 30 days. Very Low maintenance. No moving parts. Battery Reserve Renewable power from the Sun. Economical and reliable components. Suitable throughout the World except Polar regions. Battery test Clean Solar Panels Easy to install! Confidential and Proprietary Solar Electric Battery Power Battery Reserve 7 ~10 to 30 days of battery autonomy recommended for most solar powered systems. Low Arctic locations use 60 to 90 days autonomy. Redundant System Design, A + B Two independent solar electric array and battery systems. Each powers half the repeater load in normal conditions. Should one system fail, the remaining system can power the entire repeater load with half the reserve time. 74 Confidential and Proprietary Wind Turbine Electric Generator Wind turns the turbine generating electricity from the spinning electro-magnetic field generator. DC output charges the battery. Best used in combination with Solar. Economical and reliable components. Battery reserve of 7 to 10 days. Low maintenance. 75 Check for damage to turbine blades Controller and Regulator Test Charging Test Battery Test Straight forward installation Confidential and Proprietary Thermal Electric Generators (TEG) and Battery Heat from burning fuel creates electricity in thermocouples and charges the storage battery. Uses Propane or Natural Gas for fuel Recommend 12 to 15 months of fuel supply storage. Economical and reliable components. Battery Reserve of 3 to 10 days. Low maintenance. Maintain adequate fuel. Clean the burner jets 76 Sand can clog the small hole. Battery Test Easy to install. Confidential and Proprietary Motor Generator (MG) Genset Motor turns an electric generator. Motor fueled by: Higher power solutions Can be used in hybrid power systems 77 Propane Diesel Natural Gas Solar, Battery Requires periodic maintenance Higher operating and lifetime costs Confidential and Proprietary AC Mains Power Charger and Battery (BUPS) Suitable when AC Mains are nearby. No fuel supplies to maintain. Very Economical power equipment. Battery Reserve of 8 to 48 hours. Low maintenance. 78 Grid electricity is distributed by wire. Battery test Charger test Check AC Mains wires Easy to install! Confidential and Proprietary Peninsula Advantage for Site Power Systems 79 Years of Experience. Knowledgeable on Telecom and Wireless requirements. Complete drawing package. Pre-assembled systems. All required assembly hardware and wire. Reduces on-site labor costs. Reduces installation time and mistakes. Training, installation supervision and commissioning are available. Confidential and Proprietary Peninsula Advantage for Site Power Systems 80 Standard Photovoltaic Arrays Standard Wind Turbines Standard Batteries “Engineered” Power Packages Available UL Listed Components Computer Aided System Design Complete systems with all required components and installation instructions Confidential and Proprietary Questions and Discussion Thank You! 81 Confidential and Proprietary Contact Information Corporate Headquarters PO Box 1095 Danville, CA 94526 USA www.peninsulaengineering.com Frank Martens President – CEO Ed Johnson Vice President – Chief Engineer 82 Confidential and Proprietary